Liner machine for applying sealing compound

Abstract

To provide a liner machine for applying a sealing compound to a can end or lid.SOLUTION: A turret liner machine system 200 includes two turret systems 202. Two turrets 206 rotate in opposition directions from one another, simultaneously or independently at same or different times. Each turret includes a plurality of workstations 216 which extend out from each turret facing away from each other. The workstations receive an individual lid, which is delivered via a starwheel from a downstacker to each turret system. Each rotates in a direction that is opposite the direction that its respective turret system rotates, and in a direction that is opposite the direction that the other starwheel rotates. Sealant injectors 214 in the turret systems apply sealant to each lid as the lids rotate around each turret system.SELECTED DRAWING: Figure 2

Description

CROSS-REFERENCE TO RELATED APPLICATIONS

[0001] This application is a joint venture between the US Provisional Patent Application No. 2020020222222 and the Japanese Patent Application No. 202002022222. Provisional Patent Application No. 63 / 148,063 entitled "Compound 100% Polymeric Compound," filed on November 1, 2020 The patent application was filed on the 27th of this month under the name "LINER MACHINE FOR APPLYING SEALING COMPOUND". This is an international application claiming the benefit of and priority to Provisional Patent Application No. 63 / 118,851, 6,313,621; and 6,313,621, the disclosures of which are incorporated herein by reference in their entireties. [Technical field]

[0002] The present disclosure generally relates to a liner apparatus for applying a sealing compound to an article, and more particularly to a liner apparatus for applying a sealing compound to an article. In particular, it relates to an apparatus for applying sealing compound to can ends. [Background technology]

[0003] Compound end liner devices are used in can production systems. Some examples are In the liner system, the beer and beverage end, the sanitary end, and the twist-off lid are actuated. The liner device is designed to facilitate the sealing attachment of the can end to the can container. To seal the can end, apply a sealant to the underside of the can end. When this is done, the applied sealant seals the can rim and the can end, sealing the can.

[0004] The liner apparatus may include a turret that rotates on a vertical spindle. The spindle has a number of workstations spaced around it. The can ends may each be adapted to support a can end. The applicator (or sealant dispensing gun) injector nozzle is connected to a supply manifold that is A supply manifold may be installed at each workstation. A sealing compound is then applied to the supply manifold. The sealant is supplied to the applicator from the holder. The injector nozzle is The liner system may be, by way of example, water-based, solvent-based, or plastisol-based. An applicator for applying the pound may be provided.

[0005] The can end is typically supported by a chuck member that is driven by a chuck drive. The chuck drive mechanism positions the can end at a desired location adjacent the applicator. Next, the can end is rotated at high speed by the chuck member while being attached to the applicator. or by opening the sealant dispensing gun valve, the liquid sealant is precisely dispensed onto the underside of the can end. After application, the liquid sealant hardens and becomes a ring-shaped solidified elastic sealant. A stopper material is formed.

[0006] Can ends are fed to each workstation on one side of the turret and are fed from the feed position. The outlet chute is located at approximately 180° from the workstation. After passing through the nozzle chute, a mechanical brush mechanism removes excess sealing material from the face of the injector nozzle. Wipe against the injector nozzle to clean the compound. The injector nozzle may become dirty and may not move properly. This can result in frequent replacement, effectively reducing the life of the liner equipment. This causes a downtime.

[0007] Finally, at least some compound end liner devices are large and have high capacity. Maintenance of the equipment can be difficult. For example, at least some The end-end liner equipment provides a table or platform surface and supports other equipment. It may be placed in the center of the table or platform surface. The table surface must be secured so that equipment on the platform surface cannot be accessed for maintenance. Or the platform surface must be large enough to accommodate the size of the auxiliary and drive systems. The size of the slit may be 10 mm or less. Summary of the Invention [Means for solving the problem]

[0008] The technology described herein provides a liner apparatus for applying a sealing compound to an article. The present invention includes supporting methods, systems, devices, and apparatus. Provides a high performance, expandable turret liner device for applying sealing compound to ends. In the turret liner device, the turret and each star wheel are synchronized. The turrets move in opposite directions from each star wheel, and in opposite directions from each other. Move.

[0009] In some implementations, the disclosed liner device may be configured to rotate each component part in a For example, the first turret system requires components that are specially manufactured for the purpose. Some of the components in the system may require left-handed threads, but may have a second thread that rotates in the opposite direction. Complementary components in two turret systems may require right-hand threads. Customized components allow each turret system in the liner to operate independently of the other turrets. It is designed to mirror the system.

[0010] In some implementations, a synchronized turret system includes a first turret and a second turret. The star wheels of the first turret and the second turret operate simultaneously. In another embodiment, an independent turret system includes a first turret and a second turret. turret and each star wheel of the first turret operates independently of the second turret For example, the first turret and each star wheel of the first turret are , while the second turret and each star wheel of the second turret are not operating This independent operation may be achieved by controlling the access to one of the turrets and its respective system. In another embodiment, the first source The star wheels of the first turret and the star wheels of the second turret Each star wheel may be in motion while the other turrets are in motion, but each turret may be in motion while the other star wheels are in motion. It may or may not operate when the other host is operating.

[0011] In some implementations, the disclosed technology includes a two motor driven turret system. and each turret system is configured to receive a sealant liner from the other turret system. Each turret system is spaced apart from the others and driven in the opposite direction to the axis of rotation of the a plurality of workstations extending outwardly from the can end assembly and adapted to receive the individual can ends; and a small electronically controlled nozzle that applies the sealant to at least one of the individual can ends. At least one sealant applicator and two belt or gear driven down stackers. each downstacker includes a respective starwheel, each starwheel having its respective The first star wheel is driven in the opposite direction to the direction in which the turret system is driven. , which can rotate in the opposite direction to the second star wheel.

[0012] In some implementations, the downstacker is connected to an exit chute on the same side of the system. For example, each downstacker is located at the corner of each starboard liner system. The liner can be positioned at approximately ±45° from the central axis of the wheel. In the placement system, the can ends are fed from the down stacker to each workstation on one side of the turret. The outlet chute (in other words, the liner) is located at approximately 180° from the feed position. The downsteam in the disclosed liner installation system may be discharged at the opposite end of the downsteam. The tucker arrangement allows the can end to travel more distance from when it is fed to where it is discharged. This facilitates separation, thereby increasing the lining time of each individual can end.

[0013] In some implementations, the encapsulant liner apparatus includes at least one chuck member. At least one chuck member supports each can end and applies a sealing compound thereto. Rotate each individual can end for application. In some implementations, the encapsulant liner is attached. The apparatus further includes two lower chuck drives, each lower chuck drive being connected to the other The lower chuck drive is configured to rotate in a direction opposite to that of the lower chuck drive.

[0014] This Summary is provided in a simplified form to introduce a selection of concepts that are further described below in the Detailed Description. This Summary is provided to introduce the present invention to the reader in its entirety. These are not intended to identify specific features, but are intended to limit the scope of the claimed subject matter. Other features, details, and advantages of the claimed subject matter are not intended to be used in any way to The uses and advantages are further illustrated in the accompanying drawings and defined in the appended claims. Various implementations of the present invention will become apparent from the following more specific detailed description. Wax.

[0015] These and various other features and advantages will become apparent from a reading of the following detailed description. It will be. [Brief description of the drawings]

[0016] [Figure 1] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Diagram 2] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Diagram 3] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 4] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Diagram 5] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 6] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 7] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 8] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 9] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 10] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 11] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 12] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 13] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 14] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 15] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 16] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 17] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 18] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 19] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 20] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 21] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Figure 22] FIG. 1 illustrates an example of a turret liner apparatus system according to aspects of the present disclosure. [Diagram 23] 1 is a flow chart of operations supporting a dual turret liner apparatus system, according to aspects of the present disclosure. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0017] In the following description, for purposes of explanation, numerous references are made to the present invention in order to provide a thorough understanding of the present invention. Specific details are set forth in the following description, although the present invention is not limited to these specific details. It will be apparent to one skilled in the art that various features may be implemented in various ways. Although some embodiments are directed to the same aspects, features described with respect to one implementation may also be combined into several implementations. However, it should be understood that a single embodiment of the described implementation may be used in combination with other embodiments. No feature or features should be construed as essential to the invention. may omit such features.

[0018] The disclosed technology includes a method for supporting a liner device that applies a sealing compound to an article. Generally, the techniques described include methods, systems, devices, and apparatus. Turret liner apparatus for applying sealing compound to can members or can ends In the turret liner system, the turret and each star wheel are synchronized. The turrets move in opposite directions from each other and from each star wheel. In a turret liner system, each turret moves in parallel with the other turrets. The object can be moved while it is moving or not moving.

[0019] Each turret may be connected to a downstacker. The downstacker may be connected to a can end or is a supply unit that separates can ends (e.g., aluminum can ends) and supplies them to each turret. In some implementations, the disclosed technology includes applying a sealing compound to an article. More specifically, the dual turret liner system distributes the sealing compound. Dual turret liner systems that apply to can ends or can lids. The sealer applies the sealant to the metal lids. Each metal lid is received from the infeed conveyor and In some implementations, the dual taps are used to eject the material from the feeder. The Retliner unit consists of two turret systems driven by a single main drive motor. In some implementations, the liner device technology may include any number of turrets, drives, Incorporates motor, chuck, chuck drive, down stacker, and star wheel. The disclosed technology uses an extensible system to perform high-speed, large-volume end-to-end The purpose is to produce.

[0020] As used herein, a turret system includes a turret, a plurality of workstations, The system also includes an applicator having a nozzle for applying the sealant. The stem receives the lid from a star wheel adapted to receive the lid from the downstacker. The turret system may be adapted to receive the table surface or platform. The turret system is mounted on the turret surface and can rotate in opposite directions. Each includes multiple workstations that extend outward from each turret in opposite directions. nothing.

[0021] Specifically, each individual workstation receives an individual lid from the downstacker. In a dual turret system, the liner equipment includes two downstackers, each of which A stacker is connected to each turret system. It delivers lids from the downstacker to the turret. The starwheels adapted to move in the opposite direction to their respective turrets will move in the opposite direction to the other starwheel. The sealant sprayer or application is rotated in the opposite direction to the turret. A machine was set up at the workstation to apply encapsulant to each metal lid as it rotated around the It can be placed.

[0022] When applying sealing material to can ends or container closure components, It may be desirable to closely control the time between the can evaporating and the heating to ensure comprehensive coverage. It may be beneficial to maximize the application time of the encapsulant to the die. The unstacker is directly at the exit chute to allow additional lining time for the can ends. Instead of facing each other directly, the turret is It is located at an outer corner edge of the liner device system, approximately ±45° from the axis.

[0023] When the lid or can end leaves the star wheel, the can end is in the lowered position. The wheel rotates the lid so that it contacts the lower chuck, which lifts the lid. The lift cam lifts the lower chuck to a workstation on the turret system. When the lift cam is in the up position, it raises the platform above the applicator. However, the lid is rotated approximately 150° in an upright position when the sealant is applied to the lid. In this technique, the lift cams are longer as a result of the position of each downstacker. The longer length allows the lid or can end to ride further up the lift cam. This allows for more time for application of the encapsulant. The duration (of a 360° rotation) of the machine is approximately 125° in an upright position (upward and downward inclines). (The slope distance is not taken into account.) In the disclosed technology, the lift cam is moved from the down stacker to the exit shaft. Due to the distance to the port, the angle is approximately 150°.

[0024] The results of the configuration and shared components and processes included in the disclosed system The result is lower labor costs (more EPM means less staffing) ), smaller equipment footprint (e.g., an exemplary equipment is a 12s 18 sq ft operating at 5500epm compared to 18 sq ft, a smaller machine The machines require less user aisle space, lower power costs (less energy grease required), increased lining time, easier maintenance, and specific A single compound supply for the system (e.g. 5550epm is only one component) There is a compound drop required (only one compound drop).

[0025] Aspects of the present disclosure include an apparatus diagram for a liner apparatus for applying a sealing compound to an article. , are further illustrated by and described with reference to system diagrams and flow charts. can be.

[0026] This description is provided as an example and is intended to illustrate the scope, applicability, and generality of the principles described herein. Rather, the following description is not intended to limit the scope or configuration of this specification. This provides a person skilled in the art with an enabling illustration for implementing various aspects of the principles described herein. As will be understood, changes in the function and arrangement of elements may be made without departing from this application. Various modifications are possible.

[0027] FIG. 1 illustrates an example of a turret liner apparatus system 100 according to an embodiment of the present disclosure. FIG. 1 illustrates a can end or lid 490 (shown in FIG. 4) coated with a sealing compound. FIG. 1 is a perspective view of a synchronized dual turret liner apparatus system 100. The dual turret liner machine 100 applies a sealant (not shown) to the metal lids. The lids are received from a supply conveyor (not shown) and fed through an exit chute (e.g., the exit chute in FIG. 2). 212a and 212b) to a discharge conveyor (not shown). In the illustrated embodiment, the dual turret liner apparatus 100 is driven by a single main drive motor 1 The first includes two turret systems 102a and 102b driven by the A main drive motor 140 located adjacent to the turret system drives the second turret system. The drive shaft may be configured to operate in conjunction with a main drive driven gear disposed adjacent to the drive shaft. In some implementations, the liner device technology can be used with any number of turrets, drives, motors, and It can incorporate a chuck, chuck drive, down stacker, and star wheel. The disclosed technology allows for high speed, high volume production of ends using a scalable system. The purpose of this document is to:

[0028] Turret systems 102a and 102b are referred to herein as turrets 106a and 106b. 06b, a plurality of workstations 116, and an application apparatus having a nozzle 122 for applying a sealant. Each turret system may be referred to as a system including a downstairs applicator 114. The down stackers 104a and 104b are adapted to receive lids from the down stackers 104a and 104b. 5. From the star wheels (see, for example, star wheels 520a and 520b in FIG. 5) The turret systems 102a and 102b may be adapted to receive a lid. 118 (as indicated by the arrow) The turret systems 102a and 102b can rotate in opposite directions. A plurality of work stages extend outwardly from each turret system in opposite directions. Includes version 116.

[0029] The workstation 116 receives the individual lids from the downstacker. The stacking system 100 has two down stackers 104a and 104b. The downstackers are connected to each of the turret systems 102a and 102b. Star wheels 520a and 520b are adapted to deliver lids from the turrets to each turret. b is connected to the other star wheel 520b or 520a in the opposite direction to each turret. The sealant sprayer or applicator 114 is rotated in the opposite direction. When the lid rotates around each of the turrets 106a and 106b, A sealant can be applied to the metal lid.

[0030] As shown in FIG. 1, a rod cage (e.g., rod cage 110a or 110b ) is attached to each downstacker 104a and 104b. In some implementations In this case, rod cages 110a and 110b may not be used, and belts (not shown) may be used. The can ends may be fed directly into the machine by a feeder (not shown) or a conveyor (not shown).

[0031] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow additional lining time, the downstacker must be placed on a table or platform. An exit chute on the other side of the foam (e.g., exit chutes 212a and 212b in FIG. 2) b), but rather (as shown in more detail in Fig. 2 by the arrows and axis lines). Approximately ±45° from the central axis of the turrets 106a and 106b, the liner device system The outer corner edge of the

[0032] As shown in FIG. 1, the turret liner machine system 100 operates in a single machine. The two turret systems 102a and 102b include: a and 102b reduce the complexity of the turret liner apparatus system 100 and the auxiliary systems This reduces the overall footprint of the turret liner equipment system 100. For example, the turret liner equipment system 100 shares multiple auxiliary systems that enable , electrical system (not shown), compressed air system (not shown), air cooler (not shown) , an oil cooling system (not shown) including an oil cavity (not shown), and a sealant. A dual turret system operating in a single device may be included. The arrangement of the turret systems 102a and 102b allows the two turret systems 102a and 102b to b can share the auxiliary system, and the complexity is reduced, and the auxiliary system is reduced; The overall footprint of the turret liner equipment system 100 is reduced.

[0033] FIG. 2 illustrates an example of a turret liner apparatus system 200 according to an embodiment of the present disclosure. FIG. 2 illustrates a can end or lid 490 (shown in FIG. 4) coated with a sealing compound. FIG. 1 is a top view of a synchronized dual turret liner apparatus system 200. The turret liner machine 200 applies the encapsulant to the metal lids. Each metal lid is fed by a supply conveyor ( not shown) and exit chutes, e.g., exit chutes 212a and 212b. The dual turret liner device 200 is discharged to a discharge conveyor (not shown) via the , driven by a single main drive motor (see, for example, main drive motor 140 in FIG. 1 ). In some implementations, the laser includes two turret systems 202a and 202b. Ina equipment technology can be used with any number of turrets, drives, motors, chucks, chuck drives , a downstacker, and a star wheel. The goal is to produce ends at high speed and in large quantities using a scalable system.

[0034] Turret systems 202a and 202b are referred to herein as turrets 206a and 206b. 06b, a plurality of workstations 216, and a nozzle for applying a sealant (e.g., Each of the taps may be referred to as a system including an applicator 214 having a nozzle 122. The let systems 202a and 202b are fed from the down stackers 204a and 204b. A star wheel adapted to receive a lid (e.g., star wheel 520a in FIG. 5). and 520b). a and 202b are placed on a table or platform surface 218 (arrow The turret system can rotate in opposite directions (as shown by the arrows). 202a and 202b are respectively facing in opposite directions from each turret system. The system includes a plurality of workstations 216 extending therefrom.

[0035] The workstation 216 receives individual lids (not shown) from the downstacker. The dual turret system 200 includes two down stackers 204a and 204b. Each downstacker 204a and 204b is connected to a respective turret system 202a and 02b. Each downstacker delivers lids to each turret 206a and 206b. Star wheels 520a and 520b are adapted to reach each turret 206a and 206b in the opposite direction to the other star wheel 520b or 520a. The sealant sprayer or applicator 214 is mounted on the workstation. The turrets are mounted in a mounting section 216 to apply a sealant to each metal lid as the lid rotates around each turret. It can be applied.

[0036] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 204a and 204b Directly into the exit chutes 212a and 212b on the other side of the table or platform. Rather than being directly opposed, they are approximately ±100mm from the central axis of the turret (as indicated by the arrow and axis line). At 45°, it is located at the outer corner edge of the liner equipment system.

[0037] FIG. 3 illustrates an example of a turret liner apparatus system 300 according to an embodiment of the present disclosure. FIG. 3 illustrates a can end or lid 490 (shown in FIG. 4) coated with a sealing compound. FIG. 1 is a side view of a synchronized dual turret liner apparatus system 300. The turret liner machine 300 applies the encapsulant to the metal lids. Each metal lid is fed by a supply conveyor ( 2 and 3, the chute 212a of FIG. 2 is received from the outlet chute 212b. The dual turret laser is then discharged to a discharge conveyor (not shown) via a discharge conveyor 212b. The engine 300 is a two turret system driven by a single main drive motor 340. In some implementations, the liner device technology includes any Number of turrets, drives, motors, chucks, chuck drives, down stackers, The disclosed technology provides a scalable system that can incorporate a star wheel and a star wheel. The purpose is to produce ends at high speed and in large quantities using this method.

[0038] Turret systems 302a and 302b are referred to herein as turrets 306a and 306b. 06b, a plurality of workstations 316, and an application apparatus having a nozzle 322 for applying a sealant. Each turret system (e.g., a turret The stacker system 302a or 302b) receives the lids from the down stackers 304a and 304b. 5. A star wheel adapted to receive the The turret system 302a may be adapted to receive a lid from a turret system 302b (see 520b and 520c). and 302b are placed on a table or platform surface 318 (arrow The turret system can rotate in opposite directions to each other (as shown by the arrows). 302a and 302b are facing in opposite directions from each other and are out of each turret system. The system includes a plurality of workstations 316 extending from

[0039] The workstation 316 is connected to a down stacker (e.g., down stacker 304a and The dual turret system 300 receives individual lids from the two turrets 304a and 304b. There are unstackers 304a and 304b, and each downstacker 304a or 304b are connected to each of the turret systems 302a and 302b. and 304b to each turret 306a and 306b. Star wheels 520a and 520b are opposite each other from turrets 306a and 306b. 13. The star wheel 520b is rotatable in the opposite direction to the other star wheel 520a or 520b. A sealant sprayer or applicator 314 is installed at a workstation 316 to apply the sealant to the lid. As the turrets 306a and 306b rotate, they apply a sealant to each metal lid. It is possible.

[0040] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 304a and 304b Not directly facing the exit chute on the other side of the table or platform 318 and located at the outer corner edge of the liner equipment system, approximately ±45° from the central axis of the turret. will be done.

[0041] When the lid or can end leaves star wheel 520a or 520b, the can end The star wheel 520a or 520b is in contact with the lower chuck 324. Specifically, each of the turrets 306a and 306b has a plurality of lower The lower chucks 324 each receive a lid and a sauce. Rotate the lid around the slots 306a and 306b to ensure that the sealing compound is applied to the lid. The lower chuck 324 is configured to hold the lid and rotate the lid as it is being held. Lift cams 326a and 326b raise the lower chuck 324 to the turret system 3 302a and 302b to the workstation 316. The lift cam 324 Each lower chuck 324 includes a cam ring 350 attached to each lower chuck 324. and a plurality of wheels 352 configured to interface with the cam ring 350. The cam ring 350 is adapted to seal the lid when the lower chuck 324 receives the lid. Each lower channel is disposed adjacent to the nozzle 322 to receive the compound. The cam ring 350 is sized and shaped to lift the cam 324. A lower chuck 324 holds the lid through an exit chute (e.g., exit chutes 212a and 212b in FIG. 2). 12b) to lower each lower chuck 324. In the illustrated embodiment, the cam ring 350 is sized and shaped to fit against a tabletop or press. The wheel includes a race (not shown) having a variable height relative to the platform surface 318. The chuck 324 is supported by the turrets 306a and 306b. As it rotates around, it causes the height of the lower chuck 324 to change.

[0042] When the lift cam 326 is in the raised position, it presses the platform against the applicator 314. The lid is rotated approximately 150° in an upright position as the encapsulant is applied to the lid. In the disclosed technology, as a result of the position of each downstacker, each lift cam 32 The longer the length of the lift cam 326, the faster the lid or can end will move with the lift cam 326. 6 Allows for longer stay on top and therefore longer sealant application time Another liner installation technique allows the lift cam to be in the upright position (with 360° rotation) ) duration is about 125° (not considering the upslope and downslope distances). In the technique, the down stacker 304a or 304b is fed to the exit chute 212a or Because of the distance to 12b, the lift cam 326 is approximately 150°.

[0043] Additionally, the longer the length of the lift cam 326, the greater the distance between the turret systems 302a and 302b. b can be rotated at a faster speed. In contrast, the Lift Cam 326 only rotates at about 250 revolutions per minute (rpm). The longer length allows the turret systems 302a and 302b described herein to be approximately 3 100 rpm, and the turret systems 302a and 302b This allows more can ends or can lids 490 to be processed. The longer the length of the lift cam 326, the faster the lid or can end 490 can rotate around the lift cam 326. When rotating, the lid or can end 490 is rotated three times around the lower chuck 324. The lid or can end 490 is rotated three times around the lower chuck 324. This also allows more sealant to be applied to the lid or can end 490 . In contrast, at least some known can end devices require one or more can ends or lids to be inserted. Therefore, the longer the lift cam 326, the This allows more sealing material to be applied to the can end or can lid 490, and the turret system The cans 302a and 302b can process more can ends or can lids 490. do.

[0044] FIG. 4 illustrates an example of a turret liner apparatus system 400 according to an embodiment of the present disclosure. FIG. 4 shows a sealing compound (not shown) applied to a can end or lid 490. FIG. 4 is a bottom view of a synchronized dual turret liner apparatus system 400. The letliner machine 400 applies the encapsulant to the metal lids. Each metal lid is fed to a supply conveyor (see FIG. (not shown) and discharged via exit chutes 412a and 412b to a discharge conveyor ( The dual turret liner system 400 is driven by a single main drive motor 4 The system includes two turret systems 402a and 402b driven by the 40. In some implementations, the liner device technology can be used with any number of turrets, drives, motors, and chassis. It can incorporate a chuck, chuck drive, down stacker and star wheel. The disclosed technology uses a scalable system to produce ends at high speed and in large quantities. The purpose of this document is to:

[0045] Turret systems 402a and 402b are referred to herein as turrets 406a and 406b. 06b and a plurality of workstations (e.g., workstation 116 in FIG. 1 to FIG. 3). , 216, and 316) and a nozzle for applying a sealant (for example, the nozzles in Figs. 1 to 3). 1 to 3). The system includes ten applicators 114, 214, and 314. Each turret system 402a and 402b includes a down stacker (e.g., Star wheels ( ) adapted to receive lids from stackers 404a and 404b For example, see star wheels 520a and 520b in FIG. 5 to receive the lid. The turret systems 402a and 402b may be adapted to a table surface or platform. The foam surfaces 418 are placed on top of each other and rotate in opposite directions (as indicated by the arrows). The turret systems 402a and 402b can rotate in opposite directions. A plurality of workstations (e.g., See workstations 116, 216, and 316 in Figures 1-3.

[0046] The workstation receives individual lids from downstackers 404a and 404b. The dual turret system 400 includes two down stackers 404a and 404b. b, each of the downstackers 404a and 404b is connected to each of the turret systems 402a and The down stackers 404a and 404b are connected to the respective turrets. The star wheels 520a and 520b are adapted to deliver the can rotate in the opposite direction to the other star wheel 520b or 520a Place the sealant sprayer or application on the workstation and allow the lid to As it rotates around the turret, a sealant can be applied to each metal lid.

[0047] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 404a and 404b rather than directly facing the exit chute on the other side of the table or platform. Located at the outer corner edge of the liner equipment system, approximately ±45° from the central axis of the turret .

[0048] Turrets 406a and 406b each include a turret gear (e.g., turret gear 43 0a or 430b), the main drive motor 440 includes a main drive gear 432, and the turret The liner device system 400 includes two main drive driven gears 434a and 434b. The star wheels 520a and 520b are connected to the star wheel gears 436a and 436b, respectively. b, and the lower chuck 324 includes lower chuck gears 438a and 438b, respectively. Turret gears 430a and 430b rotate turrets 406a and 406b. The star wheel gears 436a and 436b are configured to rotate in a direction parallel to the star wheel 520. a and 520b, and the lower chuck gears 438a and 438 b is configured to rotate the lower chuck 324. In the illustrated embodiment, the main drive Gear 432 is rotatably coupled to turret gear 430b, which is the main drive The main drive driven gear 434b and the star wheel gear 436b are rotatably coupled to the main drive driven gear 434b and the star wheel gear 436b. The driven gear 434b is rotatably coupled to the main drive driven gear 434a. a is rotatably coupled to a turret gear 430a, which is in turn connected to a star wheel In the illustrated embodiment, the lower chuck gear 43 8a and 438b are independently driven by a chuck gear motor (not shown). In an alternative embodiment, lower chuck gears 438a and 438b are and 430b, star wheel gears 436a and 436b, main drive gear 432, and and / or may be driven by main drive driven gears 434a and 434b.

[0049] In operation, the main drive motor 440 rotates the main drive gear 432 which rotates the turret gear 430b. The turret gear 430b rotates the turret 406b, the main drive driven gear 434b, and The star wheel gear 436b rotates. The main drive driven gear 434b rotates the turret gear 430a. The turret gear 430a rotates the main drive driven gear 434a which rotates the turret 40. 6a and the star wheel gear 436a. The star wheel gear 436a Thus, in the illustrated embodiment, the turret gear 430a and 430b, main drive gear 432, main drive driven gears 434a and 434b , star wheel gears 436a and 436b, and lower chuck gears 438a and and 438b use a single main drive motor 440 to drive both turret systems 402a and 402b, reducing the complexity of the auxiliary systems and the turret The overall footprint of the liner apparatus system 400 is reduced.

[0050] FIG. 5 illustrates an example of a turret liner apparatus system 500 according to an embodiment of the present disclosure. FIG. 5 illustrates a can end or lid 490 (shown in FIG. 4) coated with a sealing compound. FIG. 5 is a top view of a synchronized dual turret liner apparatus system 500. The turret liner machine 500 applies the encapsulant to the metal lids. Each metal lid is fed by a supply conveyor ( 512 and discharged to a discharge conveyor (not shown). The dual turret liner apparatus 500 is driven by a single main drive motor (e.g., Two turret systems 502a and 502b driven by a main drive motor 440 (see FIG. 440) In some implementations, the liner device technology includes any number of turrets, drives, and so on. Live, motor, chuck, chuck drive, down stacker, and star wheel The disclosed technology can be used to achieve high speed and high volume processing using a scalable system. The aim is to produce the end

[0051] Turret systems 502a and 502b are referred to herein as turrets 506a and 506b. 06b, a plurality of workstations 516, and a nozzle for applying a sealant (e.g., and an applicator 514 having a nozzle 122. The let systems 502a and 502b receive the stacked data from the down stackers 504a and 504b. Receive the lid from star wheels 520a and 520b adapted to receive the lid. The turret systems 502a and 502b may be adapted to 518 and are positioned opposite each other (as indicated by the arrows). The turret systems 502a and 502b can rotate in the same direction. A plurality of workstations 51 extend outwardly from each turret system in opposite directions. Includes 6.

[0052] The workstation 516 transfers individual lids ( The dual turret system 500 includes two down stackers 5 Each of the down stackers 504a and 504b is connected to each turret Each downstacker is connected to each turret 506a. and 506b. The other star wheel 52 moves in the opposite direction to each of the turrets 506a and 506b. 520b or 520a. The lid 514 is placed on the workstation 516 so that as the lid rotates around each turret A sealant may be applied to each metal lid.

[0053] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 504a and 504b Directly into the exit chutes 512a and 512b on the other side of the table or platform. Rather than being directly opposed, they are approximately ±100mm from the central axis of the turret (as indicated by the arrow and axis line). At 45°, it is located at the outer corner edge of the liner equipment system.

[0054] FIG. 6 illustrates an example of a turret liner apparatus system 600 according to an embodiment of the present disclosure. FIG. 6 shows a can end or lid 790 (shown in FIG. 7) coated with a sealing compound. FIG. 6 is a perspective view of a synchronized dual turret liner apparatus system 600. The dual turret liner machine 600 applies a sealant (not shown) to the metal lid. The lids are received from a supply conveyor (not shown) and fed through an exit chute (e.g., the exit chute in FIG. 7). 712a and 712b) to a discharge conveyor (not shown). In the illustrated embodiment, the dual turret liner system 600 is driven by a single main drive motor 6 The first includes two turret systems 602a and 602b driven by the A main drive motor 640 located adjacent to the turret system drives the second turret system. The drive shaft may be configured to operate in conjunction with a main drive driven gear disposed adjacent to the drive shaft. In some implementations, the liner device technology can be used with any number of turrets, drives, motors, and It can incorporate a chuck, chuck drive, down stacker, and star wheel. The disclosed technology allows for high speed, high volume production of ends using a scalable system. The purpose of this document is to:

[0055] Turret systems 602a and 602b are referred to herein as turrets 606a and 606b. 6.06b, a plurality of workstations 616, and an application nozzle 622 for applying a sealant. Each turret system may be referred to as a system including a downstairs applicator 614. The stackers are adapted to receive lids from the down stackers (e.g., down stackers 604a and 604b). star wheels (see, for example, star wheels 1020a and 1020b in FIG. 10) The turret systems 602a and 602b can be adapted to receive a lid from It is placed on a table or platform surface 618 (as indicated by the arrow). The turret systems 602a and 602b can rotate in opposite directions. b are a plurality of workpieces extending outward from each turret system in opposite directions, Includes Station 616.

[0056] The workstation 616 receives the individual lids from the downstacker. The stacking system 600 has two down stackers 604a and 604b. The downstackers are connected to each of the turret systems 602a and 602b. Star wheels 1020a and 1020b are adapted to deliver lids from the turrets to each turret. 20b is the star wheel 1020b or 10 in the opposite direction to each turret. The sealant sprayer or applicator 614 can be rotated in the opposite direction to that of the nozzle 20a. The lids are placed on the work station and rotate around each of the turrets 606a and 606b. At this time, a sealant may be applied to each metal lid.

[0057] As shown in FIG. 6, rod cages 610a and 610b are provided in each downstacker 6 04a and 604b. In some implementations, the rod cage 61 610a and 610b may not be used and may be replaced by a belt (not shown) or conveyor (not shown). The can ends may be fed directly into the device by a feeder (without a feeder).

[0058] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow additional lining time, the downstacker must be placed on a table or platform. An exit chute on the other side of the foam (e.g., exit chutes 712a and 712b in FIG. 7) b), but rather (as shown in more detail in Fig. 7 by the arrows and axis lines). (i.e., approximately ±45° from the central axis of turrets 606a and 606b, and the liner device system The outer corner edge of the

[0059] As shown in FIG. 6, the turret liner machine system 600 operates within a single machine. The two turret systems 602a and 602b are 2a and 602b reduce the complexity of the turret liner apparatus system 600 and the auxiliary systems 3, thereby reducing the overall footprint of the turret liner apparatus system 600. For example, the turret liner system 600 may share multiple auxiliary systems that allow includes an electrical system (not shown), a compressed air system (not shown), and an air cooler (not shown). ), an oil cooling system (not shown) including an oil cavity (not shown), and a seal A material supply (not shown) may be included. Two turret systems operating in a single device. The arrangement of the turret systems 602a and 602b allows the two turret systems 602a and 602b to 2b can share the auxiliary system, reducing the complexity and reducing the auxiliary system This reduces the overall footprint of the turret liner apparatus system 600.

[0060] FIG. 7 illustrates an example of a turret liner apparatus system 700 according to an embodiment of the present disclosure. FIG. 7 illustrates a synchronized process for applying sealing compound to a can end or lid 790. FIG. 7 is a top view of a dual turret liner apparatus system 700. The machine 700 applies the encapsulant to metal lids. Each metal lid is delivered from a supply conveyor (not shown). and directed to a discharge conveyor (not shown) via exit chutes 712a and 712b. The dual turret liner apparatus 700 is driven by a single main drive motor (e.g., see FIG. 6). Two turret systems 702a and 702b are driven by a main drive motor 640 (see FIG. 6). In some implementations, the liner device technology may include any number of turrets. , drive, motor, chuck, chuck drive, down stacker, and star hoist The disclosed technology uses an extensible system to achieve high speed and The purpose is to mass-produce ends.

[0061] Turret systems 702a and 702b are referred to herein as turrets 706a and 706b. 06b, a plurality of workstations 716, and a nozzle for applying a sealant (e.g., Each of the taps may be referred to as a system including an applicator 714 having a nozzle 622. The let systems 702a and 702b receive the stacked data from the down stackers 704a and 704b. A star wheel adapted to receive a lid (e.g., star wheel 102 in FIG. 10 ). 1020a and 1020b). 702a and 702b are placed on a table or platform surface 718. , can rotate in opposite directions (as indicated by the arrows). The stems 702a and 702b face in opposite directions to each other and are attached to the respective turret systems. The system includes a number of workstations 716 extending outwardly from the system.

[0062] The workstation 716 transfers individual lids ( The dual turret system 700 includes two down stackers 7 Each of the down stackers 704a and 704b is connected to each turret Each downstacker is connected to each turret 706a. and 706b. 0b is the other star wheel in the opposite direction to each of the turrets 706a and 706b. 1020b or 1020a. The lids 14 are placed on the workstation 716 so that they rotate around each turret. When the metal lids are assembled, a sealant may be applied to each metal lid.

[0063] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 704a and 704b Directly into the exit chutes 712a and 712b on the other side of the table or platform. Rather than being directly opposed, they are approximately ±100mm from the central axis of the turret (as indicated by the arrow and axis line). At 45°, it is located at the outer corner edge of the liner equipment system.

[0064] FIG. 8 illustrates an example of a turret liner apparatus system 800 according to an embodiment of the present disclosure. FIG. 8 illustrates a can end or lid 790 (shown in FIG. 7) coated with a sealing compound. FIG. 8 is a side view of a synchronized dual turret liner apparatus system 800. The turret liner machine 800 applies the encapsulant to the metal lids. Each metal lid is fed by a supply conveyor ( not shown) and exit chutes (e.g., exit chutes 712a and 712b in FIG. 7). 712b) to a discharge conveyor (not shown). The engine 800 is a two turret system driven by a single main drive motor 840. In some implementations, the liner device technology includes any of Number of turrets, drives, motors, chucks, chuck drives, down stackers, The disclosed technology provides a scalable system that can incorporate a star wheel and a star wheel. The purpose is to produce ends at high speed and in large quantities using this method.

[0065] Turret systems 802a and 802b are referred to herein as turrets 806a and 806b. 06b, a plurality of workstations 816, and an application apparatus having a nozzle 822 for applying a sealant. Each of the turret systems 802a and 802b may be referred to as a system including a plicator 814. 02b is adapted to receive lids from downstackers 804a and 804b. 10) from star wheels (see, for example, star wheels 1020a and 1020b in FIG. 10). The turret systems 802a and 802b can be adapted to receive a lid from the turret. 818 (as indicated by the arrow) ) can rotate in opposite directions. The turret systems 802a and 802b A plurality of work stages extend outwardly from each turret system in opposite directions. Includes version 816.

[0066] Workstation 816 picks up individual lids from downstackers 804a and 804b. The dual turret system 800 includes two down stackers 804a and 804b, and each of the downstackers 804a and 804b is connected to each of the turret systems 802. The down stackers 804a and 804b are connected to the respective turrets. Star wheels 1020a and 1020b are adapted to deliver lids to the trays 806a and 806b. or 1020b, in the opposite direction to each of the turrets 806a and 806b, The sealant injector can rotate in the opposite direction to the wheel 1020b or 1020a. or application 814 is placed on the workstation 816 so that the lid is When rotating around 06a and 806b, a sealant can be applied to each metal lid. .

[0067] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 804a and 804b Not directly facing the exit chute on the other side of the table or platform 818 and located at the outer corner edge of the liner equipment system, approximately ±45° from the central axis of the turret. will be done.

[0068] When the lid or can end leaves the star wheel 1020a or 1020b, the can end The star wheel 1020a or 1020b is in the lowered position. Specifically, the lid is rotated so that each of the turrets 806a and 806b The lower chuck 824 includes a plurality of lower chucks 824. Each of the lower chucks 824 is adapted to receive a lid. The lid is then rotated around turrets 806a and 806b to dispense the sealing compound. The lower chuck 824 is configured to rotate the lid as the coating is applied to the lid. lifts the lid, and lift cams 826a and 826b turret the lower chuck 824. Lift to workstation 816 on workstation systems 802a and 802b. The cam 824 includes a cam ring 850, and each lower chuck 824 includes a a plurality of wheels 852 mounted on the cam ring 850 and configured to align with the cam ring 850; The cam ring 850 is provided to allow the lid to contact the sealing contact when the lower chuck 824 receives the lid. Each lower chuck is disposed adjacent to the nozzle 822 to receive the compound. 824. Additionally, cam ring 850 is sized and shaped to lift lower The chuck 824 secures the lid to an exit chute (e.g., exit chutes 712a and 712b in FIG. 7). 824 when unloading the lower chuck 824 from the lower chuck 824. In the illustrated embodiment, the cam ring 850 is attached to a tabletop or platform. The wheel 8 includes a race (not shown) having a variable height relative to the track surface 818. 52 rolls on the races and the lower chuck 824 rotates around the turrets 806a and 806b. As the lower chuck 824 rotates, the height of the lower chuck 824 changes.

[0069] When the lift cam 826 is in the raised position, it presses the platform against the applicator 814. The lid is rotated approximately 150° in an upright position as the encapsulant is applied to the lid. In the disclosed technology, as a result of the position of each downstacker, each lift cam 82 6 is longer. The longer the length of the lift cam 826, the This allows the sealant to stay on the surface longer, thus allowing for longer sealant application times. Another liner assembly technology allows the lift cam to be in the upright position (360° rotation) The duration is about 125° (not considering the upslope and downslope distances). In the technique, lift cams 826 move the down stackers 804a and 804b to the exit chute. Because of the distance to 712a and 712b, lift cam 826 is approximately 150°.

[0070] Additionally, the longer the length of the lift cam 826, the greater the distance between the turret systems 802a and 802b. b can be rotated at a faster speed. In contrast, the Lift Cam 826 has a long The longer length allows the turret systems 802a and 802b described herein to be approximately 30 0 rpm, and the turret systems 802a and 802b This allows more can ends or lids 790 to be processed. The longer the length of the cam 826, the faster the lid or can end 790 rotates around the lift cam 826. When doing so, rotate the lid or can end 790 around the lower chuck 824 three times. The lid or can end 790 can be rotated three times around the lower chuck 824. This also allows more encapsulant to be applied to the lid or can end 790. In contrast, at least some known can end machines are capable of dispensing can ends or can lids in one or more passes. The lift cam 826 can rotate only twice. More sealing material can be applied to the can end or lid 790, and the turret system 802a and 802b can process more can ends or can lids 790. .

[0071] FIG. 9 illustrates an example of a turret liner apparatus system 900 according to an embodiment of the present disclosure. 9 shows a can end or lid 790 (shown in FIG. 7) with sealing compound ( FIG. 9 is a bottom view of a synchronized dual turret liner machine system 900 for applying a liner (not shown). The dual turret liner machine 900 applies the encapsulant to the metal lids. 912a and 912b. The dual turret liner device 900 is a single Two turret systems 902a and 902b driven by a main drive motor 940 In some implementations, the liner device technology includes any number of turrets, drives, The motor, chuck, chuck drive, down stacker and star wheel are assembled. The disclosed technology uses an extensible system to perform high-speed, large-volume engineering. The purpose of this project is to produce

[0072] Turret systems 902a and 902b are referred to herein as turrets 906a and 906b. 06b and a plurality of workstations (e.g., workstation 616 in FIG. 6 to FIG. 8). , 716, and 816) and a nozzle for applying a sealant (for example, the applicator shown in Figs. 6 to 8). 6-10) with applicators 622, 722, and 822. 8. In the embodiment, the applicator 614, 714, and 814 may be referred to as a system including the applicator 614, 714, and 814 in FIG. Each turret system 902a and 902b includes a down stacker (e.g., Star wheels (e.g., tackers 904a and 904b) adapted to receive lids from For example, see star wheels 1020a and 1020b in FIG. 10. The turret systems 902a and 902b can be adapted to mount on a tabletop or platform. 918 and point in opposite directions (as indicated by the arrows). The turret systems 902a and 902b can rotate relative to each other. Multiple workstations (e.g. , see workstations 616, 716, and 816 in Figures 6-8).

[0073] The workstation receives individual lids from downstackers 904a and 904b. The dual turret system 900 includes two down stackers 904a and 904b. b, each downstacker 904a and 904b is connected to each turret system 902a and The down stackers 904a and 904b are connected to the respective turrets. The star wheels 1020a and 1020b are adapted to deliver the in the opposite direction to the other star wheel 1020b or 1020a The sealant sprayer or application can be installed at the workstation. A sealant may be applied to each metal lid as the lid rotates around each turret.

[0074] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 904a and 904b rather than directly facing the exit chute on the other side of the table or platform. Located at the outer corner edge of the liner equipment system, approximately ±45° from the central axis of the turret .

[0075] Turrets 906a and 906b include turret gears 930a and 930b, respectively. The main drive motor 940 includes a main drive gear 932, and the turret liner apparatus system 900 includes a main drive driven gear 934, and the star wheel 1020a or 1020b is The lower chuck 824 includes star wheel gears 936a and 936b, The chuck gears 938a and 938b are turret gears 930a and 930b. 906a and 906b, and a star wheel gear 936. a and 936b are configured to rotate star wheels 1020a or 1020b The lower chuck gears 938a and 938b are arranged to rotate the lower chuck 824. In the illustrated embodiment, the main drive gear 932 is configured as a turret gear 930b and The turret gear 930b is rotatably coupled to the main drive driven gear 934, and the turret gear 930b is a star wheel gear. The main drive driven gear 934 is rotatably coupled to the turret gear 930a. turret gear 930a is rotatably coupled to star wheel gear 936b In the illustrated embodiment, the lower chuck gears 938a and 938b are chuck gears. In an alternative embodiment, the lower chuck is driven independently by a motor (not shown). Gears 938a and 938b are turret gears 930a and 930b, star wheel gear 936a and 936b, the main drive gear 932, and / or the main drive driven gear 934 It may be driven thereby.

[0076] In operation, the main drive motor 940 drives the turret gear 930b and the main drive driven gear 934. The turret gear 930b rotates the main drive gear 932 which rotates the turret 906b. The star wheel gear 936b rotates the star wheel 1020b. The drive driven gear 934 rotates the turret gear 930a. Rotating the turret 906a and the star wheel gear 936a. 936a rotates star wheel 1020a. Thus, in the illustrated embodiment turret gears 930a and 930b, a main drive gear 932, a main drive driven gear 934, Star wheel gears 936a and 936b, and lower chuck gears 938a and 938b uses a single main drive motor 940 to drive both turret systems 902a and 902b. 02b, reducing complexity, reducing auxiliary systems, and turret la This reduces the overall footprint of the power equipment system 900.

[0077] FIG. 10 illustrates an example of a turret liner apparatus system 1000 according to an embodiment of the present disclosure. Specifically, FIG. 10 illustrates a can end or lid 790 (shown in FIG. 7) that is sealed with a sealing compound. FIG. 10 is a top view of a synchronized dual turret liner machine system 1000 for applying a coating. The dual turret liner machine 1000 applies the encapsulant to the metal lids. The liquid is received from a conveyor (not shown) and discharged via an exit chute 1012 to a discharge conveyor (not shown). The dual turret liner system 1000 is driven by a single main drive motor ( A two turret system driven by a main drive motor (see, for example, main drive motor 940 in FIG. 9 ). In some implementations, the liner device technology includes any Any number of turrets, drives, motors, chucks, chuck drives, down stackers, and star wheels. The disclosed technology is a scalable system. The purpose of the present invention is to produce ends at high speed and in large quantities using the above method.

[0078] Turret systems 1002a and 1002b are referred to herein as turrets 1006a and and 1006b, a plurality of workstations 1016, and a nozzle for applying the encapsulant (e.g. For example, see nozzle 622 in FIG. 6. Each turret system 1002a and 1002b may include a downstacker 1004a. and 1004b. The turret systems 1002a and 1002b may be adapted to receive a lid from the turret system 1002a. 02b is placed on a table or platform surface 1018 (indicated by an arrow) The turret system 1002 can rotate in opposite directions (as shown in FIG. 1). a and 1002b are respectively facing in opposite directions and coming out of each turret system. The system includes a plurality of workstations 1016 extending therethrough.

[0079] The workstation 1016 receives individual stacks from the downstackers 1004a and 1004b. The dual turret system 1000 includes two downseaters. The stackers 1004a and 1004b are stacked. b is connected to each turret system 1002a and 1002b. A star wheel adapted to deliver a lid from the star wheel to each of the turrets 1006a and 1006b. The turrets 1020a and 1020b are rotated in the opposite direction to the turrets 1006a and 1006b. and the other star wheel 1020b or 1020a can rotate in the opposite direction. A sealant sprayer or application 1014 is installed in a workstation 1016. Thus, a sealant can be applied to each metal lid as the lid rotates around each turret. .

[0080] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 1004a and 1004b are b are the exit chutes 1012a and 101b on the other side of the table or platform. 2b, but not directly opposite (as indicated by the arrow and axis line) the central axis of the turret. The liner equipment system is disposed at an outer corner edge, approximately ±45° from the liner equipment system.

[0081] As shown in FIG. 10, the turret liner machine system 1000 operates in a single machine. The two turret systems 1002a and 1002b are The systems 1002a and 1002b show that the turret liner apparatus system 1000 reduces complexity. , reducing auxiliary systems and reducing the overall footprint of the turret liner apparatus system 1000. Share multiple auxiliary systems that allow for reduced The system 1000 includes an electrical system (not shown), a compressed air system (not shown), an air cooling system (not shown), An oil cooling system (not shown) including a cooler (not shown) and an oil cavity (not shown). ), and a supply of encapsulant (not shown). The arrangement of the turret systems 1002a and 1002b is similar to that of the two turret systems 100 2a and 1002b to share auxiliary systems, reducing complexity and system and reduce the overall footprint of the turret liner apparatus system 1000. .

[0082] FIG. 11 illustrates an example of a turret liner apparatus system 1100 according to an embodiment of the present disclosure. Specifically, FIG. 11 illustrates a sealing component in a can end or can lid 1290 (shown in FIG. 12). FIG. 11 is a perspective view of an asynchronous dual turret liner machine system 1100 for applying a coating. The asynchronous dual turret liner machine 1100 applies a sealant (not shown) to a metal lid. Each metal lid is received from a supply conveyor (not shown) and directed through an exit chute (e.g., 12 through an exit conveyor (not shown) via exit chutes 1212a and 1212b. In the illustrated embodiment, the dual turret liner apparatus 1100 has two Two turrets driven by two independent main drive motors 1140a and 1140b The turret systems 1102a and 1102b are arranged adjacent to each other. The main drive motors 1140a and 1140b are connected to the turret system when one of the turret systems is undergoing maintenance. If a system requires a replay or fails, other turret systems can continue to operate. independent of each other to ensure increased production time and increased profits. In some implementations, the liner device technology may be configured to operate in any number of Turrets, drives, motors, chucks, chuck drives, down stackers, and The disclosed technology uses an expandable system. The purpose is to produce ends at high speed and in large quantities.

[0083] 11-15 show an asynchronous or independent turret liner apparatus system according to an embodiment of the present disclosure. Specifically, Figs. 11 to 15 show an example of an independent turret liner device system. An independent turret system is one in which a first turret and its respective star wheel are connected to a second For example, the first turret and the second turret are configured to operate independently of each other. Each star wheel is connected to a second turret while its respective star wheel is not in operation. This independent operation may be performed by one of the turrets and its respective system. In another embodiment, the first The first turret and its respective star wheels are connected to the second turret and its respective star wheels. Each turret can only operate when the other turret is operating. The independent turret liner system has the ability to operate or not operate independently. The advantage is that if one system fails or is turned off for maintenance, In that case, the other system will work and take less time and money.

[0084] Turret systems 1102a and 1102b are referred to herein as turrets 1106a and and 1106b, a plurality of workstations 1116, and a nozzle 112 for applying the sealant. 2 and an applicator 1114 having a turret 1116. , receiving a lid from a down stacker (e.g., down stackers 1104a and 1104b) 15. A star wheel adapted to receive the The turret system 1102 may be adapted to receive a lid from a turret assembly 1520b. a and 1102b are placed on a table or platform surface 1118; They can rotate in opposite directions (as shown by the arrows). The turret systems 1102a and 1102b face in opposite directions, respectively. The system includes a plurality of workstations 1116 extending outwardly from the system.

[0085] The workstation 1116 receives the individual lids from the downstacker. The stacker system 1100 has two down stackers 1104a and 1104b. Each downstacker is connected to a respective turret system 1102a and 1102b. Starwheel 1520 adapted to deliver lids from the downstacker to each turret a and 1520b are star wheels 1520a and 1520b, which are in the opposite direction to each turret. b or 1520a. 1114 is placed on the workstation so that the lid is attached to each of the turrets 1106a and 1106b. When rotating around b, a sealant can be applied to each metal lid.

[0086] As shown in FIG. 11, rod cages 1110a and 1110b are In some implementations, the rods are attached to the mounts 1104a and 1104b. Cages 1110a and 1110b may not be used and may be replaced by a belt (not shown) or A conveyor (not shown) can feed the can ends directly into the machine.

[0087] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow additional lining time, the downstacker must be placed on a table or platform. An exit chute on the other side of the foam (e.g., exit chute 1212a and 1212b in FIG. 12) 212b), but is instead directly opposed to the about ±45° from the central axis of the turrets 1106a and 1106b, It is located at an outer corner edge of the device system.

[0088] FIG. 12 illustrates an example of a turret liner apparatus system 1200 according to an embodiment of the present disclosure. Specifically, FIG. 12 illustrates applying a sealing compound to a can end or lid 1290. FIG. 12 is a top view of an asynchronous dual turret liner machine system 1200. The liner machine 1200 applies the encapsulant to the metal lids. Each metal lid is fed to a supply conveyor (not shown). ) and discharged via exit chutes 1212a and 1212b to a discharge conveyor ( The dual turret liner system 1200 is driven by two main drive motors. (See, for example, main drive motors 1140a and 1140b in FIG. 11) In some implementations, the system includes two turret systems 1202a and 1202b. Linear equipment technology can be used with any number of turrets, drives, motors, chucks, and chuck heads. The disclosed technology can incorporate a live, down stacker, and star wheel. The technique aims to produce ends at high speed and in large quantities using a scalable system.

[0089] Turret systems 1202a and 1202b are referred to herein as turrets 1206a and and 1206b, a plurality of workstations 1216, and a nozzle for applying a sealant (e.g. 11 (e.g., see nozzle 1122 in FIG. 11 ) and Each turret system 1202a and 1202b may be referred to as a downstacker 120. 4a and 1204b. 5 star wheels 1520a and 1520b) are adapted to receive the lids. The turret systems 1202a and 1202b may be mounted on a tabletop or platform. 1218 and rotate in opposite directions (as indicated by the arrows). The turret systems 1202a and 1202b can be rotated in parallel with each other. A plurality of workstations 1216 extending outwardly from each turret system in opposite directions. Includes.

[0090] The workstation 1216 receives individual stacks from the downstackers 1204a and 1204b. The dual turret system 1200 includes two downseaters. The stackers 1204a and 1204b are stacked. b is connected to each turret system 1202a and 1202b. A star wheel adapted to deliver a lid from the star wheel to each of the turrets 1206a and 1206b. The turrets 1520a and 1520b are rotated in the opposite direction to the turrets 1206a and 1206b. In addition, the star wheel 1520b or 1520a can rotate in the opposite direction to the other star wheel 1520b or 1520a. A sealant sprayer or application 1214 is installed in a workstation 1216. Thus, a sealant can be applied to each metal lid as the lid rotates around each turret. .

[0091] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. In order to allow for additional lining time, downstackers 1204a and 1204b are b are the exit chutes 1212a and 121b on the other side of the table or platform. 2b, but not directly opposite (as indicated by the arrow and axis line) the central axis of the turret. The liner equipment system is disposed at an outer corner edge, approximately ±45° from the liner equipment system.

[0092] FIG. 13 illustrates an example of a turret liner apparatus system 1300 according to an embodiment of the present disclosure. Specifically, FIG. 13 shows a can end or lid 1290 (shown in FIG. 12) fitted with a sealing compound. FIG. 13 is a side view of an asynchronous dual turret liner machine system 1300 for applying a bond. The dual turret liner machine 1300 applies the encapsulant to the metal lids. 12. The conveyor 100 receives the conveyor 12 from the conveyor 102 and passes through an exit chute (e.g., exit chute 12 in FIG. 12). 12a and 12b) to a discharge conveyor (not shown). The Altarret liner apparatus 1300 is driven by two main drive motors 1340a and 1340b. The system includes two turret systems 1302a and 1302b driven by a In one implementation, the liner device technology may include any number of turrets, drives, motors, and chutes. Can incorporate chucks, chuck drives, down stackers, and star wheels The disclosed technology enables high-speed, high-volume production of ends using a scalable system. The purpose is to:

[0093] Turret systems 1302a and 1302b are referred to herein as turrets 1306a and and 1306b, a plurality of workstations 1316, and a nozzle 132 for applying the sealant. 2 and an applicator 1314 having a turret system 1 302a and 1302b receive the lids from the down stackers 1304a and 1304b. 15. A star wheel adapted to receive the The turret system 1302 may be adapted to receive a lid from a turret assembly 1302 (see 1520b and 1520c). a and 1302b are placed on a table or platform surface 1318; They can rotate in opposite directions (as shown by the arrows). The systems 1302a and 1302b face in opposite directions to each other, The system includes a plurality of workstations 1316 extending outwardly from the system.

[0094] The workstation 1316 receives individual stacks from the down stackers 1304a and 1304b. The Dual Turret System 1300 has two Down Stackers 130 The down stackers 1304a and 1304b are connected to each turret. Each of the down stackers 1304a and 1304b is connected to the down stacker 1304a. 1304a and 1304b to each turret 1306a and 1306b. The star wheel 1520a or 1520b is connected to each of the turrets 1306a and 1306b. b in the opposite direction to the other star wheel 1520b or 1520a The sealant sprayer or application 1314 can be rotated to the workstation. 1316, when the lid rotates around each of the turrets 1306a and 1306b. A sealant may be applied to each metal lid.

[0095] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. Downstackers 1304a and 1304b are installed to allow for additional lining time. b directly opposite the exit chute on the other side of the table or platform 1318 Instead, the outer corner edge of the liner equipment system is located approximately ±45° from the central axis of the turret. will be placed in.

[0096] When the lid or can end leaves the star wheel 1520a or 1520b, the can end The star wheel 1520a or 1520b is in the lowered position. 4. Specifically, each of the turrets 1306a and 1306 b includes a plurality of lower chucks 1324. Each of the plurality of lower chucks 1324 includes: Receive the lid and rotate the lid around turrets 1306a and 1306b to seal the lid. The lid is configured to rotate as the compound is applied to the lid. The lid is lifted by the lift cams 1326a and 1326b, which are located at the bottom of the chuck 1324. 1324 to the workstations 13 on the turret systems 1302a and 1302b. The lift cam 1324 includes a cam ring 1350 and is connected to each lower chuck 16. 324 are attached to each lower chuck 1324 and aligned with the cam ring 1350. The cam ring 1350 includes a plurality of wheels 1352 arranged in a row. 4 receives the lid, the nozzle 1322 so that the lid receives the sealing compound. 13. The lower chuck 1324 is sized and configured to elevate the lower chuck 1324 so that the lower chuck 1324 is positioned adjacent to the Further, the cam ring 1350 is shaped such that the lower chuck 1324 holds the lid in the exit chute. (See, for example, exit chutes 1212a and 1212b in FIG. 12) The lower chucks 1324 are sized and shaped to lower each lower chuck 1324 at the same time. In one embodiment, a cam ring 1350 is attached to the table or platform surface 1318. The wheel 1352 includes a race (not shown) that has a variable height relative to the ground. As the lower chuck 1324 rotates around the turrets 1306a and 1306b, Accordingly, the height of the lower chuck 1324 is changed.

[0097] When the lift cam 1326 is in the raised position, it lifts the platform against the applicator 1314. The lid is raised above the foam 1318 and the lid is held in an upright position for approximately 150 In the disclosed technology, as a result of the position of each downstacker, each lift car The longer the lift cam 1326 is, the faster the lid or can end will lift. This allows for a longer stay on the Tocam 1326, thus shortening the sealant application time. Another liner installation technique allows the lift cam to be in the upright position (3 60° rotation) duration is approximately 125° (not considering the upslope and downslope distances) In the disclosed technology, the lift cam 1326 moves the down stackers 1304a and 130 4b to the exit chutes 1212a and 1212b, the lift cam 1 326 is approximately 150°.

[0098] Additionally, the longer the length of the lift cam 1326, the greater the distance between the turret systems 1302a and 1302b. This allows the can end machine 302b to rotate at a faster speed. Some only rotate at 250 revolutions per minute (rpm). In contrast, lift cams 13 The longer length of 26 allows for the turret systems 1302a and 130 2b can be rotated at 300 rpm, and turret systems 1302a and 1302b allows more can ends or lids 1290 to be processed. In addition, the longer the length of the lift cam 1326, the closer the lid or can end 1290 is to the lift cam. As it rotates around the chuck 1326, the lid or can end 1290 is held in the lower chuck 1324. The lid or can end 1290 can be rotated three times around the lower chuck 1 324 three times to allow more encapsulant to be applied to the lid or can end 129 In contrast, at least some known can end devices Therefore, the can end or lid can only be rotated once or twice. The longer the length of the lid 1326, the more sealing material is applied to the can end or lid 1290. The turret systems 1302a and 1302b can be used to apply more A can or can lid 1290 can be processed.

[0099] FIG. 14 illustrates an example of a turret liner apparatus system 1400 according to an embodiment of the present disclosure. Specifically, FIG. 14 illustrates a sealing component in a can end or can lid 1290 (shown in FIG. 12). Asynchronous dual turret liner machine system 1400 for applying a coating (not shown) A dual turret liner machine 1400 applies encapsulant to a metal lid. Metal lids are received from a supply conveyor (not shown) and passed through exit chutes 1412a and 1412b. The material is discharged to a discharge conveyor (not shown) via 412b. 1400 includes two drive motors 1440a and 1440b driven by two main drive motors. In some implementations, the light source includes a turret system 1402a and a turret system 1402b. Equipment technology can include any number of turrets, drives, motors, chucks, chuck drives, The disclosed technology can be expanded to include a down stacker, a down stacker, and a star wheel. The objective of the present invention is to produce ends at high speed and in large quantities using a scalable system.

[0100] Turret systems 1402a and 1402b are referred to herein as turrets 1406a and and 1406b, and a plurality of workstations (e.g., the workstations in Figs. 11 to 13). See sections 1116, 1216, and 1316) and a nozzle for dispensing the encapsulant ( For example, see applicators 1122, 1222, and 1322 in FIGS. 11-13. Applicators having the same (e.g., applicators 1114, 1214, and Each turret system 1402a and and 1402b are down stackers (e.g., down stackers 1404a and 1404b 15.) adapted to receive a lid from a star wheel (e.g., the star wheel of FIG. 15 1520a and 1520b). The stems 1402a and 1402b are aligned with the table or platform surface 1418. are mounted on top of each other and can rotate in opposite directions (as indicated by the arrows) The turret systems 1402a and 1402b are oriented in opposite directions. A number of workstations extend outwardly from each turret system (e.g., see Figs. 11-13). 1116, 1216, and 1316).

[0101] The workstation receives individual lids from downstackers 1404a and 1404b. The dual turret system 1400 includes two down stackers 1404a and Each of the down stackers 1404a and 1404b is connected to each of the turret systems. The downstackers 1404a and 1404b are connected to the respective downstackers 1404a and 1404b. Star wheels 1520a and 1520b adapted to deliver lids to each turret 520b is connected to the other star wheel 1520b or 1 in the opposite direction to each turret. 520a. The sealant sprayer or application to the workpiece Stations apply sealant to each metal lid as the lid rotates around each turret. It can be distributed.

[0102] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow for additional lining time, downstackers 1404a and 1404b are b must not be directly opposite the exit chute on the other side of the table or platform. The turret is located at approximately ±45° from the central axis of the turret and on the outer corner edge of the liner equipment system. can be.

[0103] Turrets 1406a and 1406b are fitted with turret gears 1430a and 1430b, respectively. 0b, and main drive motors 1440a and 1440b each include main drive gear 1432a and 1432b, and star wheel 1520a or 1520b is a star The lower chuck 1324 includes wheel gears 1436a and 1436b, Chuck gears 1438a and 1438b. Turret gears 1430a and 143 0b is configured to rotate turrets 1406a and 1406b, and a star wheel Lugia 1436a and 1436b rotate star wheel 1520a or 1520b The lower chuck gears 1438a and 1438b are configured to rotate the lower chuck 1 In the illustrated embodiment, the main drive gear 1432a and and 1432b are rotatably coupled to turret gears 1430a and 1430b, respectively. The turret gears 1430a and 1430b are connected to the star wheel gear 143 6a and 1436b. In the illustrated embodiment, the lower chuck 1438a and 1438b are independently driven by a chuck gear motor (not shown). In an alternative embodiment, the lower chuck gears 1438a and 1438b are Gears 1430a and 1430b, star wheel gears 1436a and 1436b, etc. and / or may be driven by main drive gears 1432a and 1432b.

[0104] In operation, the main drive motors 1440a and 1440b each drive the turret gear 1430 Rotate 1432a and 1432b. 1430a and 1430b are turrets 1406a and 1406b, star wheel Rotate the star wheel gears 1436a and 1436b. 1436b rotates the star wheels 1520a and 1520b. In the illustrated embodiment, turret gears 1430a and 1430b, main drive gear 1432 a and 1432b, star wheel gears 1436a and 1436b, and the lower Jack gears 1438a and 1438b connect two main drive motors 1440a and 1440b. b is configured to drive both turret systems 1402a and 1402b. This increases production time, increases profits, and improves the overall efficiency of the turret liner equipment system 1400. Reduce the overall footprint.

[0105] FIG. 15 illustrates an example of a turret liner apparatus system 1500 according to an embodiment of the present disclosure. Specifically, FIG. 15 illustrates a sealing component in a can end or can lid 1290 (shown in FIG. 12). FIG. 15 is a top view of an asynchronous dual turret liner machine system 1500 for applying a wrap. The dual turret liner machine 1500 applies the encapsulant to the metal lids. The feed conveyor (not shown) receives the feed material from a feed conveyor (not shown) and delivers it to a discharge conveyor ( The dual turret liner system 1500 is driven by two main drive motors. (See, for example, main drive motors 1440a and 1440b in FIG. 14) In some implementations, the system includes two turret systems 1502a and 1502b. Linear equipment technology can be used with any number of turrets, drives, motors, chucks, and chuck heads. The disclosed technology can incorporate a live, down stacker, and star wheel. The technique aims to produce ends at high speed and in large quantities using a scalable system.

[0106] 15-20 illustrate an asynchronous or independent turret liner apparatus system according to an embodiment of the present disclosure. Specifically, Figs. 15 to 20 show an example of an independent turret liner device system. An independent turret system is one in which a first turret and its respective star wheel are connected to a second For example, the first turret and the second turret are configured to operate independently of each other. Each star wheel is connected to a second turret while its respective star wheel is not in operation. This independent operation may be performed by one of the turrets and its respective system. In another embodiment, the first The first turret and its respective star wheels are connected to the second turret and its respective star wheels. Each turret can only operate when the other turret is operating. The independent turret liner system has the ability to operate or not operate independently. The advantage is that if one system fails or is taken off for maintenance, The other system works and takes less time and money.

[0107] Turret systems 1502a and 1502b are referred to herein as turrets 1506a and and 1506b, a plurality of workstations 1516, and a nozzle for applying a sealant (e.g. 11 (e.g., see nozzle 1122 in FIG. 11 ) and Each turret system 1502a and 1502b may be referred to as a downstacker 150. Star wheels 1520a and 1504b adapted to receive the lids from the The turret systems 1502a and 1520b may be adapted to receive the lids from the turret systems 1502a and 1520b. 1502b is placed on a table or platform surface 1518 (as indicated by the arrow) The turret system 15 can rotate in opposite directions (as shown by the arrows 15b). 02a and 1502b are facing in opposite directions from each turret system. It includes a number of workstations 1516 extending therefrom.

[0108] The workstation 1516 receives individual stacks from the down stackers 1504a and 1504b. The dual turret system 1500 includes two downseaters. There are two stackers 1504a and 1504b. b is connected to each turret system 1502a and 1502b. A star wheel adapted to deliver a lid from the star wheel to each of the turrets 1506a and 1506b. The turrets 1520a and 1520b are rotated in the opposite direction to the turrets 1506a and 1506b. In addition, the star wheel 1520b or 1520a can rotate in the opposite direction to the other star wheel 1520b or 1520a. A sealant sprayer or application 1514 is installed in a workstation 1516. Thus, a sealant can be applied to each metal lid as the lid rotates around each turret. .

[0109] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. Downstackers 1504a and 1504b are installed to allow for additional lining time. b are the exit chutes 1512a and 151b on the other side of the table or platform. 2b, but not directly opposite (as indicated by the arrow and axis line) the central axis of the turret. The liner equipment system is disposed at an outer corner edge, approximately ±45° from the liner equipment system.

[0110] As shown in FIG. 15, the turret liner machine system 1500 operates in a single machine. The two turret systems 1502a and 1502b are The systems 1502a and 1502b show the turret liner apparatus system 1500 with reduced complexity. , reducing auxiliary systems and reducing the overall footprint of the turret liner equipment system 1500. Share multiple auxiliary systems that allow for reduced The system 1500 includes an electrical system (not shown), a compressed air system (not shown), and an air cooling system. An oil cooling system (not shown) including a cooler (not shown) and an oil cavity (not shown). ), and a supply of encapsulant (not shown). The arrangement of the turret systems 1502a and 1502b is similar to that of the two turret systems 150 2a and 1502b share auxiliary systems, reducing complexity and system and reduce the overall footprint of the turret liner apparatus system 1500. .

[0111] FIG. 16 illustrates an example of a turret liner apparatus system 1600 according to an embodiment of the present disclosure. Specifically, FIG. 16 illustrates a sealing component in a can end or can lid 1790 (shown in FIG. 17). FIG. 16 is a perspective view of an asynchronous dual turret liner machine system 1600 for applying a coating. The asynchronous dual turret liner machine 1600 applies an encapsulant (not shown) to a metal lid. Each metal lid is received from a supply conveyor (not shown) and directed through an exit chute (e.g., 17) through an exit conveyor (not shown) and In the illustrated embodiment, a dual turret liner apparatus 1600 is Two turrets driven by two independent main drive motors 1640a and 1640b The turret systems 1602a and 1602b are arranged adjacent to each other. The main drive motors 1640a and 1640b are connected to the turret system when one of the turret systems is undergoing maintenance. If a system requires a password or fails, other turret systems can continue to operate. They operate independently of each other to ensure that you get the most out of your production, increased production time and increased profits. In some implementations, the liner device technology may be configured to Turrets, drives, motors, chucks, chuck drives, down stackers, and The disclosed technology uses an expandable system. The purpose is to produce ends at high speed and in large quantities.

[0112] Turret systems 1602a and 1602b are referred to herein as turrets 1606a and and 1606b, a plurality of workstations 1616, and a nozzle 162 for applying the sealant. 2 and an applicator 1614 having a turret 1616. , receiving a lid from a down stacker (e.g., down stackers 1604a and 1604b) A star wheel adapted to receive the The turret system 1602 may be adapted to receive a lid from a turret assembly 1602 (see FIGS. 2020a and 2020b). a and 1602b are table or platform surfaces 1618a and 1618b b) and can rotate in opposite directions (as indicated by the arrows). In the illustrated embodiment, the table or platform surface 1618a and 618b indicates that the turret systems 1602a and 1602b are separately maintained or repaired. to allow one of the turret systems to be maintained by the If a turret system requires maintenance or fails, other turret systems can continue to operate. Increase production time and increase profits. Turret systems 1602a and 1602b Each of the workpieces extends outward from each turret system in opposite directions. Includes station 1616.

[0113] The workstation 1616 receives the individual lids from the downstacker. The stacker system 1600 has two down stackers 1604a and 1604b. Each downstacker is connected to a respective turret system 1602a and 1602b. Starwheel 2020 adapted to deliver lids from the downstacker to each turret a and 2020b are star wheels in the opposite direction to each turret, b or 2020a. 1614 is placed on the workstation so that the lid is attached to each of the turrets 1606a and 1606b. When rotating around b, a sealant can be applied to each metal lid.

[0114] As shown in FIG. 16, rod cages 1610a and 1610b are In some implementations, the rods are attached to the mounts 1604a and 1604b. Cages 1610a and 1610b may not be used and may be replaced by a belt (not shown) or A conveyor (not shown) can feed the can ends directly into the machine.

[0115] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. To allow additional lining time, the downstacker must be placed on a table or platform. An exit chute on the other side of the foam (e.g., exit chute 1712a and 1712b in FIG. 17) 712b), but is instead directly opposed to the about ±45° from the central axis of the turrets 1606a and 1606b, It is located at an outer corner edge of the device system.

[0116] FIG. 17 illustrates an example of a turret liner apparatus system 1700 according to an embodiment of the present disclosure. Specifically, FIG. 17 illustrates the application of sealing compound to a can end or lid 1790. 17 is a top view of an asynchronous dual turret liner machine system 1700. The liner device 1700 applies the sealant to the metal lids. Each metal lid is fed to a supply conveyor (not shown). The discharged material is received from the outlet chutes 1712a and 1712b and discharged to the (not shown). The dual turret liner system 1700 has two main drive motors. (see, for example, main drive motors 1640a and 1640b in FIG. 16) In some implementations, the system includes two turret systems 1702a and 1702b. Linear equipment technology can be used with any number of turrets, drives, motors, chucks, A drive, downstacker, and starwheel may be incorporated. The technology aims to produce ends at high speed and in large quantities using scalable systems. .

[0117] Turret systems 1702a and 1702b are referred to herein as turrets 1706a and and 1706b, a plurality of workstations 1716, and a nozzle (e.g., 16 (e.g., see nozzle 1622 in FIG. 16 ) and Each turret system 1702a and 1702b may be referred to as a down stacker 170. 4a and 1704b. 0 star wheels (see 2020a and 2020b) The turret systems 1702a and 1702b may be mounted on a tabletop or platform. 17. The molded surfaces 1718a and 1782b are positioned on the molded surfaces 1718a and 1782b (as indicated by the arrows). The turret systems 1702a and 1702b can rotate in opposite directions. Each of the workpieces extends outward from each turret system in opposite directions. Includes station 1716.

[0118] The workstation 1716 receives individual stacks from the down stackers 1704a and 1704b. The dual turret system 1700 includes two downseaters. There are two stackers 1704a and 1704b, and each of the down stackers 1704a and 1704 b is connected to each turret system 1702a and 1702b. A star wheel adapted to deliver a lid from the star wheel to each of the turrets 1706a and 1706b. Turrets 2020a and 2020b are rotated in the opposite direction from turrets 1706a and 1706b. can rotate in the opposite direction to the other star wheel 2020b or 2020a. A sealant sprayer or application 1714 is installed in the workstation 1716. Thus, a sealant can be applied to each metal lid as the lid rotates around each turret. .

[0119] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. Downstackers 1704a and 1704b are installed to allow for additional lining time. b are the exit chutes 1712a and 171b on the other side of the table or platform; 2b, but not directly opposite (as indicated by the arrow and axis line) the central axis of the turret. The liner equipment system is disposed at an outer corner edge, approximately ±45° from the liner equipment system.

[0120] FIG. 18 illustrates an example of a turret liner apparatus system 1800 according to an embodiment of the present disclosure. Specifically, FIG. 18 shows a can end or lid 1790 (shown in FIG. 17) fitted with a sealing compound. FIG. 18 is a side view of an asynchronous dual turret liner machine system 1800 for applying a bond. The dual turret liner machine 1800 applies the encapsulant to the metal lids. 17. The conveyor 100 receives the spool 1 from a conveyor (not shown) and passes through an exit chute (e.g., exit chute 1 in FIG. 17). 712a and 1712b) to a discharge conveyor (not shown). The dual turret liner assembly 1800 has two main drive motors 1840a and 1840b. The system includes two turret systems 1802a and 1802b driven by In some implementations, the liner device technology can be used with any number of turrets, drives, motors, and chassis. It can incorporate a chuck, chuck drive, down stacker and star wheel. The disclosed technology uses a scalable system to produce ends at high speed and in large quantities. The purpose of this document is to:

[0121] Turret systems 1802a and 1802b are referred to herein as turrets 1806a and and 1806b, a plurality of workstations 1816, and a nozzle 182 for applying the sealant. 2 and an applicator 1814 having a turret system 1 802a and 1802b receive the lids from the down stackers 1804a and 1804b. A star wheel adapted to receive the 2020b). a and 1802b are table or platform surfaces 1818a and 1818 b) and can rotate in opposite directions (as indicated by the arrows). The turret systems 1802a and 1802b each face in the opposite direction. The system includes a plurality of workstations 1816 extending outwardly from each turret system.

[0122] The workstation 1816 receives individual stacks from the down stackers 1804a and 1804b. The Dual Turret System 1800 has two Down Stackers 180 4a and 1804b, and each of the down stackers 1804a and 1804b is connected to each turret. Each of the down stackers 1804a and 1804b is connected to the down stacker 1802a and 1804a and 1804b to each turret 1806a and 1806b. The star wheel 2020a or 2020b is attached to each of the turrets 1806a and 1806 b in the opposite direction to the other star wheel 2020b or 2020a The sealant sprayer or application 1814 can be rotated to the workstation. 1816, and when the lid rotates around each of the turrets 1806a and 1806b A sealant may be applied to each metal lid.

[0123] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. Downstackers 1804a and 1804b are installed to allow for additional lining time. b is the exit sprung from the other side of the table or platform 1818a and 1818b. The liner device system is not directly opposite the turret but is located approximately ±45° from the central axis of the turret. The outer corner edges of the cylinder are positioned at the outer corner edges of the cylinder.

[0124] When the lid or can end leaves the star wheel 2020a or 2020b, the can end The star wheel 2020a or 2020b is in the lowered position. 4. Specifically, each of the turrets 1806a and 1806 b includes a plurality of lower chucks 1824. Each of the plurality of lower chucks 1824 includes: Receive the lid and rotate the lid around turrets 1806a and 1806b to seal the lid. Each is configured to rotate the lid as the compound is applied to the lid. The lower chuck 1824 lifts the lid, and the lift cams 1826a and 1826b Lower chuck 1824 is mounted on a work station on turret systems 1802a and 1802b. The lift cam 1824 includes a cam ring 1850 and is The chucks 1824 are attached to each lower chuck 1824 and aligned with the cam ring 1850. The cam ring 1850 includes a plurality of wheels 1852 configured to mate with the lower chuck. When the 1824 lid is received, the lid is placed in a position to receive the sealing compound. 18. The lower chucks 1824 are then raised so that they are positioned adjacent the jaws 1822. Additionally, the cam ring 1850 is sized and shaped to fit the lower chuck 1824 and the lid. Access to an exit chute (see, for example, exit chutes 1712a and 1712b in FIG. 17). The lower chucks 1824 are sized and shaped to lower when the load is In the illustrated embodiment, the cam ring 1850 is attached to a tabletop or platform. It includes a race (not shown) having a variable height relative to faces 1818a and 1818b. The wheels 1852 roll on the races and the lower chuck 1824 moves the turret 1806a and As the lower chuck 1824 rotates around 1806b, the height of the lower chuck 1824 changes.

[0125] When the lift cam 1826 is in the raised position, the platform is lifted against the applicator 1814. As the encapsulant is applied to the lid, the lid is The vertical position is rotated approximately 150°. In the disclosed technology, the result of each downstacker position is As a result, each lift cam 1826 is longer. The longer the length of the lift cam 1826, the or the can end is allowed to stay longer on the lift cam 1826, thus This allows for longer application times for the encapsulant. The duration (of a 360° rotation) of the machine is approximately 125° in an upright position (upward and downward inclines). (The diagonal distance is not taken into consideration.) In the disclosed technology, the lift cam 1826 is 04a and 1804b to the exit chutes 1712a and 1712b. Therefore, the lift cam 1826 is approximately 150°.

[0126] Additionally, the longer the length of the lift cam 1826, the greater the distance between the turret systems 1802a and 1802b. This allows the can end machine 802b to rotate at a faster speed. Some of the lift cams only rotate at 250 revolutions per minute (rpm). The longer length of 26 allows for the turret systems 1802a and 180 2b can be rotated at 300 rpm, and turret systems 1802a and 1802b allows more can ends or lids 1790 to be processed In addition, the longer the length of the lift cam 1826, the closer the lid or can end 1790 is to the lift cam. As it rotates around the chuck 1826, the lid or can end 1790 is held in the lower chuck 1824. The lid or can end 1790 can be rotated three times around the lower chuck 1 By rotating 824 three times, more encapsulant is applied to the lid or can end 179 In contrast, at least some known can end devices Therefore, the can end or lid can only be rotated once or twice. The longer the length of the Futcam 1826, the more sealing material is applied to the can end or lid 1790. The turret systems 1802a and 1802b can dispense more cans. The can or can lid 1790 can be processed.

[0127] FIG. 19 illustrates an example of a turret liner apparatus system 1900 according to an embodiment of the present disclosure. Specifically, FIG. 19 illustrates a sealing component in a can end or lid 1790 (shown in FIG. 17). Asynchronous dual turret liner machine system 1900 for applying a coating (not shown) A dual turret liner machine 1900 applies encapsulant to a metal lid. Metal lids are received from a supply conveyor (not shown) and passed through exit chutes 1912a and 1912b. The material is discharged to a discharge conveyor (not shown) via 912b. 1900 includes two drive motors 1940a and 1940b driven by two main drive motors 1940a and 1940b. In some implementations, the light includes a turret system 1902a and a turret system 1902b. Equipment technology can include any number of turrets, drives, motors, chucks, chuck drives, The disclosed technology can be expanded to include a down stacker, a down stacker, and a star wheel. The objective of the present invention is to produce ends at high speed and in large quantities using a scalable system.

[0128] Turret systems 1902a and 1902b are referred to herein as turrets 1906a and and 1906b, and multiple workstations (e.g., the workstations in Figs. 16 to 18) see sections 1616, 1716, and 1816) and nozzles for applying the encapsulant (e.g. , see applicators 1622, 1722, and 1822 in FIGS. 16-18. Applicators (e.g., applicators 1614, 1714, and 181 in FIGS. 16-18 4). Each of the turret systems 1902a and 1902 b is a down stacker (e.g., down stackers 1904a and 1904b) from which the lids are removed. A star wheel adapted to receive the star wheel (e.g., star wheel 2020a in FIG. 20). and 2020b). 02a and 1902b are table or platform surfaces 1918a and 19 18b and rotate in opposite directions (as indicated by the arrows) The turret systems 1902a and 1902b can rotate in opposite directions. A plurality of workstations (e.g., FIG. 16) extending outwardly from each turret system toward the ~See workstations 1616, 1716, and 1816 in FIG.

[0129] The workstation receives individual lids from downstackers 1904a and 1904b. The dual turret system 1900 has two down stackers 1904a and Each of the down stackers 1904a and 1904b is connected to each of the turret systems. The down stackers 1904a and 1904b are connected to the respective down stackers 1904a and 1904b. Star wheels 2020a and 2020b adapted to deliver lids to each turret 020b is the star wheel 2020b or 2020b, which is the star wheel opposite each turret. 020a can be rotated in the opposite direction. Stations apply sealant to each metal lid as the lid rotates around each turret. It can be distributed.

[0130] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. Downstackers 1904a and 1904b are installed to allow for additional lining time. b must not be directly opposite the exit chute on the other side of the table or platform. The turret is located at approximately ±45° from the central axis of the turret and on the outer corner edge of the liner equipment system. can be.

[0131] Turrets 1906a and 1906b are turret gears 1930a and 193 0b, and main drive motors 1940a and 1940b each include main drive gears 1932a and 1932b, and Star Wheel 2020a or 2020b are Star The lower chuck 1824 includes wheel gears 1936a and 1936b, Chuck gears 1938a and 1938b. Turret gears 1930a and 193 0b is configured to rotate turrets 1906a and 1906b, and a star wheel Lugia 1936a and 1936b rotate star wheel 2020a or 2020b The lower chuck gears 1938a and 1938b are configured to rotate the lower chuck 1 In the illustrated embodiment, the main drive gear 1932a and and 1932b are rotatably coupled to turret gears 1930a and 1930b, respectively. The turret gears 1930a and 1930b are respectively connected to the star wheel gear 193 6a and 1936b. In the illustrated embodiment, the lower chuck A 1938a and 1938b are independently driven by a chuck gear motor (not shown). In an alternative embodiment, the lower chuck gears 1938a and 1938b are Gears 1930a and 1930b, Starwheel Gears 1936a and 1936b, etc. and / or may be driven by main drive gears 1932a and 1932b.

[0132] In operation, the main drive motors 1940a and 1940b each drive the turret gear 1930 Rotating 1932a and 1932b. A 1930a and 1930b are Turrets 1906a and 1906b and Star The star wheel gears 1936a and 1936b rotate. 936a and 1936b rotate the star wheels 2020a and 2020b Thus, in the illustrated embodiment, turret gears 1930a and 1930b, main drive moving gears 1932a and 1932b, star wheel gears 1936a and 1936b, and lower chuck gears 1938a and 1938b are connected to two main drive motors 1940a and 1940b are used to drive both turret systems 1902a and 1902b. The turret liner device system is configured to increase production time and increase profits. Reducing the 1900's overall footprint.

[0133] FIG. 20 illustrates an example of a turret liner apparatus system 2000 according to an embodiment of the present disclosure. Specifically, FIG. 20 illustrates a sealing component in a can end or lid 1790 (shown in FIG. 17). FIG. 2 is a top view of an asynchronous dual turret liner machine system 2000 for applying a wrap. The dual turret liner machine 2000 applies the encapsulant to the metal lids. The feed conveyor (not shown) receives the feed material from the feed conveyor (not shown) and delivers it to the discharge conveyor ( The dual turret liner system 2000 is driven by two main drive motors. (See, for example, main drive motors 1940a and 1940b in FIG. 19) In some implementations, the system includes two turret systems 2002a and 2002b. Linear equipment technology can be used with any number of turrets, drives, motors, chucks, and chuck heads. The disclosed technology can incorporate a live, down stacker, and star wheel. The technique aims to produce ends at high speed and in large quantities using a scalable system.

[0134] Turret systems 2002a and 2002b are referred to herein as turrets 2006a and and 2006b, a plurality of workstations 2016, and a nozzle for applying a sealant (e.g. 16 (e.g., see nozzle 1622 in FIG. 16 ), and Each turret system 2002a and 2002b may be referred to as a downstacker 200. Star wheels 2020a and 2004b adapted to receive the lids from The turret systems 2002a and 2020b may be adapted to receive the lids from the turret systems 2002a and 2020b. 2002b on top of table or platform surfaces 2018a and 2018b The two wheels are mounted on a single pair of wheels and can rotate in opposite directions (as shown by the arrows). The let systems 2002a and 2002b are arranged in opposite directions. The system includes a plurality of workstations 2016 extending outwardly from the system.

[0135] Workstation 2016 is an individual stacker from Downstacker 2004a and 2004b. The dual turret system 2000 includes two downseaters. There are two stackers, 2004a and 2004b, and each of the down stackers 2004a and 2004 b is connected to each turret system 2002a and 2002b. A star wheel adapted to deliver a lid to each of the turrets 2006a and 2006b from the star wheel. Turrets 2020a and 2020b are oriented in the opposite direction to turrets 2006a and 2006b. can rotate in the opposite direction to the other star wheel 2020b or 2020a. The sealant sprayer or application 2014 is placed on the workstation 2016. Thus, a sealant can be applied to each metal lid as the lid rotates around each turret. .

[0136] When applying sealing material to can ends or container closure components, It may be desirable to closely control the application time of the encapsulant to the can end. It may be beneficial to ensure comprehensive coverage. Downstackers 2004a and 2004b were installed to allow for additional lining time. b are the exit chutes 2012a and 201b on the other side of the table or platform; 2b, but not directly opposite (as indicated by the arrow and axis line) the central axis of the turret. The liner equipment system is disposed at an outer corner edge, approximately ±45° from the liner equipment system.

[0137] FIG. 21 illustrates an example of a turret liner apparatus system 2100 according to an embodiment of the present disclosure. Specifically, FIG. 21 shows can ends or lids 490, 790, 1290, and 1790. Dual turret liner machine system 100~200 for applying sealing compound 2 is a perspective view of a turret liner apparatus system 2100. The turret liner apparatus system 2100 is a dual turret liner apparatus. 2 is an example of the upper structure 2160 of the installation system 100 to 2000. 00 applies a sealant (not shown) to the metal lids. Each metal lid is fed by a supply conveyor (not shown). ) and exit chutes (e.g., exit chutes 2112a and 2112b) The material is discharged to a discharge conveyor (not shown) via a discharge port (see FIG. 1). The turret liner apparatus 2100, as described above, is driven by two main drive motors (not shown) or is a two turret system 2102 driven by a single main drive motor (not shown). a and 2102b. Main drive motors (multiple) located adjacent to each turret system. The number of turrets (possible) operates both turret systems 2102a and 2102b to reduce production time. In some implementations, the license may be configured to increase the number of licenses and increase profits. Equipment technology can include any number of turrets, drives, motors, chucks, chuck drives, The disclosed technology can be expanded to include a down stacker, a down stacker, and a star wheel. The objective of the present invention is to produce ends at high speed and in large quantities using a scalable system.

[0138] The upper structure 2160 includes a frame 2162 and a panel attached to the frame 2162. 2164 and the tank system attached to each turret system 2102a and 2102b. At least one stem 2166a and 2166b attached to the frame 2162 The upper structure 2160 includes a tabletop or platform surface. 2118a and 2118b, and tank systems 2166a and 2166 b to support the operator and turret systems 2102a and 2102b during use. Specifically, as described above, the turret system 2102a and and 2102b are configured to rotate at high speed (i.e., 3,000 rpm), and the upper Structure 2160 prevents the operator and / or other objects from interfering with its rotation. More specifically, the panel 2164 and the door 2168 are configured to allow the operator and and / or other objects interfering with the rotation of the turret systems 2102a and 2102b. By preventing this, the turret systems 2102a and 2102b and the operator In the illustrated embodiment, the upper structure 2160 is configured to protect the four doors 2 168a, 2168b, 2268c (shown in FIG. 22), and 2268d (shown in FIG. 22). ) is included. The door 2168 is closed when the turret systems 2102a and 2102b are not operational. When the turret system 2102a and the turret system 2102b are not in use, the turret system 2102a and the turret system 2102b can be selectively accessed. It is composed of.

[0139] The tank systems 2166a and 2166b include tanks 2170a and 2170b, respectively. 170b and an attachment mechanism 2172 attached to the tanks 2170a and 2170b. Tanks 2170a and 2170b include turrets. The can lids 490, 790, 1290, and 1790. Specifically, the sealant solution The nozzle 12 described above is used to apply the liquid to the can lids 490, 790, 1290, and 1790. Tanks 2170a and 2170b are configured to guide the water to tanks 21202-2122. 70a and 2170b rotate with the respective turret systems 2102a and 2102b. The attachment mechanisms 2172a and 2172b are each configured to attach to the tank 217 2170a and 2170b are attached to the frame 2162, and the tanks 2170a and 2170b are Attachment mechanisms 2172a and 2172b are configured to structurally support the remains stationary and tank 2170a and 2170b rotate. 0a and 2170b.

[0140] The turret liner apparatus system 2100 includes a shell 2174, a skirt 2176, and a control. The shell 2174 further includes a control panel 2178. The shell 2174 may be a tabletop or platform. 2118a and 2118b, and the table or platform surface 2118a and 2118b extend below the interior of the turret liner apparatus system 2100. The skirt 2176 is configured to protect the components. 2174 and extends below the shell 2174 and into the interior of the turret liner apparatus system 2100. The skirt 2176 is also configured to protect the components. is defined to allow air to flow to the internal components of the turret liner apparatus system 2100. This allows for air cooling of the internal components. 2174, and an operator operates the turret liner apparatus system 2100. This makes it possible.

[0141] FIG. 22 illustrates an example of a turret liner apparatus system 2200 according to an embodiment of the present disclosure. Specifically, FIG. 22 shows can ends or lids 490, 790, 1290, and 1790. Dual turret liner machine system 100~200 for applying sealing compound 2 is a perspective view of a turret liner apparatus system 2200. The upper structure 2260 of the system 100-2000 is shown. A stopper (not shown) is applied to the metal lids, and each metal lid is received from a supply conveyor (not shown). 21. The exit chutes (e.g., exit chutes 2112a and 2112b shown in FIG. 21) ) to a discharge conveyor (not shown). The Altarret liner apparatus 2200, as described above, is driven by two main drive motors (not shown) or is a two turret system 2202 driven by a single main drive motor (not shown). a and 2202b. A main drive motor(s) located adjacent to each turret unit ) operates both turret systems 2202a and 2202b, increasing production time In some implementations, the liner assembly may be configured to increase the efficiency of the liner assembly. Placement technology can be any number of turrets, drives, motors, chucks, chuck drives, down Stackers, and star wheels can be incorporated. The disclosed technology is scalable. The objective is to produce ends at high speed and in large quantities using such a system.

[0142] The upper structure 2260 includes a frame 2262 and a panel attached to the frame 2262. 2264 and the tank system attached to each turret system 2202a and 2202b. At least one stem 2266a and 2266b attached to the frame 2262 and two doors 2268. The upper structure 2260 is a table or platform surface. 2218a and 2218b, and tank systems 2266a and 2266 b to support the operator and turret systems 2202a and 2202b during use. Specifically, as described above, the turret system 2202a and and 2202b are configured to rotate at high speed (i.e., 3,000 rpm), and the upper Structure 2260 prevents operators and / or other objects from interfering with its rotation. More specifically, the panel 2264 and the door 2268 are configured to allow the operator and and / or other purposes to interfere with the rotation of the turret systems 2202a and 2202b. By preventing this, the turret systems 2202a and 2202b and the operator In the illustrated embodiment, the upper structure 2260 is configured to protect the four doors 2 168a, 2168b, 2268c (shown in FIG. 22), and 2268d (shown in FIG. 22). ) is included. Door 2268 is closed when turret systems 2202a and 2202b are not operational. 2202a and 2202b. It is configured to:

[0143] The tank systems 2266a and 2266b include tanks 2270a and 2270b, respectively. 70b, and attachment mechanism 2272a attached to tanks 2270a and 2270b. Tanks 2270a and 2270b each include a turret The stems 2202a and 2202b are connected to the can lids 490, 790, 1290, and 17 90. Specifically, tank 2270 is configured to contain the sealant solution that is applied to the a and 2270b for application to can lids 490, 790, 1290, and 1790 , configured to guide the sealant solution to the nozzles 122 to 2022 described above. a and 2270b rotate with the respective turret systems 2202a and 2202b. The attachment mechanisms 2272a and 2272b are configured to mount the tank 2270a and 2270b are attached to the frame 2262 to form the tanks 2270a and 2270b. The mounting mechanisms 2272a and 2272b are configured to structurally support the stationary As tanks 2270a and 2270b rotate, tank 2270 a and 2270b.

[0144] The turret liner apparatus system 2200 includes a shell 2274, a skirt 2276, and a control. The shell 2274 further includes a control panel 2278. The shell 2274 may be a tabletop or platform. Attached to and extending below faces 2218a and 2218b is a turret liner system. The skirt 2276 is configured to protect the internal components of the stem 2200. Attached to the shell 2274 and extending below the shell 2274 is a turret liner system. The skirt 2276 is also configured to protect the internal components of the system 2200. Allows air to flow to the internal components of the turret liner apparatus system 2200 and defines a plurality of holes 2280 that allow air to cool the internal components. A control panel 2278 is mounted to the shell 2274 and allows an operator to control the turret liner system. 23 illustrates a dual-channel 2200 system according to an embodiment of the present disclosure. 23 shows a flow chart of operations 2300 supporting a turret liner apparatus system. In this implementation, there may be one or more than two turrets in the liner equipment system. In the embodiment illustrated in operation 2300, a dual turret system is In other implementations that support more turrets, two It is contemplated that one or more prime movers may be required. The Inner device system is expandable.

[0145] Operation 2302 drives a first turret system in a first direction. Operation 2304 drives a first turret system in a first direction. A second turret system is driven in a second direction. The second turret system drives the first turret in a second direction. They can rotate in the opposite direction to the direction of the ret system. There are.

[0146] Operation 2306 includes displacing a first dummy wheel into a first turret system via a first star wheel. A first plurality of lids is received from a first in-feed conveyor connected to the unstacker. The first star wheel may rotate in the opposite direction to the first turret system. Similarly, operation 2308 may include transmitting the second turret system via a second star wheel. a second plurality of lids from a second in-feed conveyor connected to a second down stacker in the The second star wheel rotates in the opposite direction to the second turret system. In some implementations, the first star wheel may rotate relative to the second star wheel. It can rotate in the opposite direction to the eel.

[0147] In operation 2310, a sealant is applied to the first plurality of lids and the second plurality of lids. In one implementation, a first turret is applied through a nozzle of an applicator or encapsulant gun. The individual workstations are located within the main turret system and within the second turret system. The stopper material is applied.

[0148] In operation 2312, the first and second plurality of lids having the encapsulant are respectively , and discharged onto a first discharge conveyor and a second discharge conveyor.

[0149] In some implementations, the liner device system includes at least one lower chuck driver. For example, a first lower chuck drive connected to a first turret system and a second lower chuck drive connected to the second turret system. The first lower chuck drive rotates in the opposite direction to the second lower chuck drive. It may rotate in any direction.

[0150] These methods describe implementation examples, and the acts and steps include: Note that the numbers may be rearranged or modified, and other implementations are possible. In some embodiments, aspects from two or more methods may be combined. For example, Each aspect of the method may be any step or aspect of any other method or method described herein. Thus, aspects of the present disclosure may include steps or techniques for determining consumer preferences and A maintenance interface may be provided.

[0151] The description given in this specification in conjunction with the accompanying drawings describes the configuration of the embodiment. and do not represent all embodiments that may be practiced or that are within the scope of the claims. As used herein, the term "exemplary" means "one Serving as an example, in "preferred" means "stance or illustration" "advantageous over other embodiments" or "advantageous over other embodiments" ver other examples) for a detailed description. For the purpose of providing an understanding of the described technology, specific details are included. These techniques may be practiced without these specific details. In this case, similar components or features may have the same reference label.

[0152] This description is provided to enable any person skilled in the art to make or use the disclosure. Various modifications to the present disclosure will be readily apparent to those skilled in the art and are set forth herein. The general principles defined herein may be applied to other modifications without departing from the scope of the present disclosure. Therefore, the present disclosure should not be construed as being limited to the embodiments and designs described herein. The broadest scope of the present invention is to be given without being inconsistent with the principles and novel features disclosed herein. It should be.

Claims

1. A two motor driven turret system including a first turret system and a second turret system. a rotation direction of the first turret system is different from that of the second turret system; a dual motor driven turret system, the dual motor driven turret system rotating in a direction opposite to the direction in which the turret system rotates; a single main drive motor driving said two motor driven turret systems; Located on each of two motor-driven turret systems spaced apart and extending outwardly from the circumference a plurality of workstations for receiving individual can ends; a plurality of workstations adapted to receive the Close proximity to turret system to feed individual can ends to individual workstations and adjacent to the exit chute which ejects the individual can ends from the turret system. Two down stackers, At least one encapsulant application installed at each of the individual workstations. a dispenser that is electronically controlled to apply a sealant to at least one of the individual can ends; at least one sealant applicator controlled by the 1. An encapsulant liner apparatus comprising:

2. receiving said at least one of said individual can ends; a star wheel adapted to supply at least one to each turret system; The star wheel rotates in a direction opposite to the direction in which each of the turret systems rotates. The encapsulant liner apparatus of claim 1 .

3. The star wheel includes a first star wheel and a second star wheel, said first star wheel rotates in a direction opposite to that of said second star wheel; Item 2. The sealant liner device according to item 1.

4. The downstackers are each spaced at approximately ±45° from the respective central axes of the turret system. The encapsulant liner apparatus of claim 1 .

5. Further comprising a lift cam, the length of the lift cam being about 150°. The encapsulant liner apparatus of claim 1 .

6. The downstacker includes a first downstacker disposed adjacent to the exit chute.

6. The method of claim 5, wherein the individual can ends rotate in a clockwise direction about the turret system. The encapsulant liner device is mounted on the

7. The downstacker includes a second downstacker disposed adjacent to the exit chute.

5. The method of claim 4, wherein the individual can ends rotate in a counterclockwise direction about the turret system. The encapsulant liner apparatus as described above.

8. The lower chuck drives further include two lower chuck drives, each of which is connected to the other The lower chuck drive is configured to rotate in a direction opposite to that of the lower chuck drive. Further equipped with a chuck drive, The encapsulant liner apparatus of claim 1 .

9. A plurality of turret systems, each turret system being arranged in a direction on a vertical spindle. The turret system rotates in the opposite direction to the adjacent turret system. Equipped with a system The turret systems are: a plurality of work stations spaced apart about said vertical spindle; Thus, each workstation is adapted to support a can end and to seal said can end. A plurality of workpieces, including an applicator having a spray nozzle for applying the ring compound. Station and a single main drive motor for driving the two motor driven turret systems; A turret system is provided at each top of which a supply of sealing compound is received from the supply. a supply manifold for supplying the sealing compound to the injector nozzle; A plurality of downstackers, each downstacker positioned adjacent to each turret system. Each turret system is fitted with multiple star wheels, each of which is driven in the opposite direction to the star wheel. A downstacker, Liner application system.

10. Each downstacker is positioned adjacent to an exit chute and each starwheel is positioned adjacent to a can end. and rotating the liner coating material away from the exit chute. Fabric system.

11. Each downstacker has a separate turret system to increase the lining time of the can end.

10. The liner application system of claim 9, wherein the liner application system is located at about ±45 degrees from a central axis of the system.

12. Further comprising a lift cam, the length of the lift cam being about 150°. The liner application system of claim 9.

13. At least one chuck member, A machine that supports the can ends and rotates each individual can end to apply sealing compound. Chuck member and The liner application system of claim 9 further comprising:

14. Two lower chuck drives, each lower chuck drive being connected to the other lower chuck and two lower chuck drives configured to rotate in the opposite direction to the drive. Including, The liner application system of claim 13.

15. Driving a first turret system in a first direction; driving a second turret system in a second direction opposite to the first direction; a first downstacker in the first turret system via a first star wheel; receiving a first plurality of lids from a first in-feed conveyor connected to the a second downstacker in the second turret system via a second star wheel; receiving a second plurality of lids from a second in-feed conveyor connected to the applying a sealant to the first plurality of lids and the second plurality of lids; Discharging the first plurality of lids and the second plurality of lids, together with the encapsulant, onto a discharge conveyor. and method.

16. Driving the first downstacker in a direction opposite to the first starwheel system. and, Driving the second downstacker in a direction opposite to the second starwheel system. and The method of claim 15.

17. Driving the first down stacker in a direction opposite to that of the second down stacker. , further including The method of claim 15.

18. driving a first lower chuck drive connected to the first turret system; and, driving a second lower chuck drive connected to the second turret system; The first lower chuck drive is Further comprising moving or driving in opposite directions. The method of claim 15.

19. and driving the first turret system and the second turret system simultaneously. Including, The method of claim 15.

20. Driving the first turret system and the second turret system in an alternating manner. Further comprising: The method of claim 15.

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